mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: an electrochemical sensor; and a potentiostat circuit (600, 900, 1000) that drives the electrochemical sensor, wherein, the potentiostat circuit (600, 900, 1000) is arranged to boost, upon start up, the current driven into the electrochemical sensor at a rate that is not limited by voltage and/or current supply until the electrochemical sensor reaches the electrochemical sensor's normal operating condition, at which point the boosted potentiostat circuit (600, 900, 1000) is arranged to be turned off and the conventional potentiostat circuit is arranged to operate. an electrochemical sensor; and a potentiostat circuit (600, 900, 1000) that drives the electrochemical sensor, wherein, the potentiostat circuit (600, 900, 1000) is arranged to boost, upon start up, the current driven into the electrochemical sensor at a rate that is not limited by voltage and/or current supply until the electrochemical sensor reaches the electrochemical sensor's normal operating condition, at which point the boosted potentiostat circuit (600, 900, 1000) is arranged to be turned off and the conventional potentiostat circuit is arranged to operate.
An antimicrobial composition comprising: i. 0.001 to 5% by weight of thymol, ii. 0.001 to 5% by weight of one or more propen-2-yl-methyl-cyclohexanols, and iii. a carrier; wherein the one or more propen-2-yl-methyl-cyclohexanols are selected from the group consisting of 2-methyl-5-(propen-2-yl)-cyclohexanols and 5-methyl-2-(propen-2-yl)-cyclohexanols; and wherein the carrier comprises water, ethanol, propanol, isopropanol, ethylene glycol, propylene glycol, diethylene glycol, or mixtures thereof. i. 0.001 to 5% by weight of thymol, ii. 0.001 to 5% by weight of one or more propen-2-yl-methyl-cyclohexanols, and iii. a carrier;
Axle assembly for a vehicle having a crosslink which comprises two crosslink struts (2, 3) and at least three kinematic points (4, 5, 6), wherein each of the two crosslink struts (2, 3) has a wheel-carrier-side end and a body-side end, wherein at least one of the two crosslink struts (2, 3) has a curvature in a spatial direction, wherein this spatial direction is a vertical axis to a plane which is defined by the at least three kinematic points (4, 5, 6), characterized by a track rod which is guided in a subregion below the curvature of the at least one crosslink strut (2, 3).
Method for operating a high-pressure pump, in particular a radial or in-line piston pump in fuel injection systems of air-compressing, auto-ignition internal combustion engines, wherein the high-pressure pump has a first pump assembly, has at least one second pump assembly and has a drive shaft which serves for driving the first pump assembly and the second pump assembly, wherein a first inlet valve for a pump working chamber of the first pump assembly and at least one second inlet valve for a pump working chamber of the second pump assembly are provided, wherein at least the first inlet valve is in the form of a controlled inlet valve, and wherein, in a part-load operating mode, a delivery of fuel by the first pump assembly through the first inlet valve is at least substantially able to be interrupted, and wherein, for actuation of the first inlet valve, a control unit of the fuel injection system is provided, characterized in that the control unit, in the part-load operating mode, in the case of a cylinder deactivation of the internal combustion engine, carries out an actuation of at least the first inlet valve in a manner temporally matched to the cylinder deactivation, in order to interrupt the delivery of fuel by the first pump assembly.
Automated analysis device with a reagent station, the reagent station comprising: - a first reagent container storage with a plurality of receptacle positions for reagent containers, - a second reagent container storage with a plurality of receptacle positions for reagent containers and wherein the second reagent container storage is rotatably mounted, - a transfer apparatus for transferring reagent containers between the first and the second reagent container storage (2, 10), - a control unit, and - a pipetting apparatus, wherein the pipetting apparatus can access the first reagent container storage but not the second reagent container storage, and wherein the receptacle positions of the second reagent container storage are arranged circularly, characterized in that at least one receptacle position of the second reagent container storage can be reached by a user by means of a user access element, and wherein the automated analysis device comprises a housing and wherein the reagent station is surrounded by the housing and wherein the user access element creates a connection between the device interior, in which the reagent station is arranged, and the device surroundings and wherein the control unit is configured such that when a user accesses a receptacle position of the second reagent container storage the transfer apparatus has no access to the second reagent container storage, while the first reagent container storage can continue to be accessed by the pipetting apparatus. - a first reagent container storage with a plurality of receptacle positions for reagent containers, - a second reagent container storage with a plurality of receptacle positions for reagent containers and wherein the second reagent container storage is rotatably mounted, - a transfer apparatus for transferring reagent containers between the first and the second reagent container storage (2, 10), - a control unit, and - a pipetting apparatus,
A power conversion device comprising: an inverter that is arranged in a casing and is adapted to receive power from a direct-current power supply system, and drive a motor that is connected to a first ground; a cooler that is adapted to cool down the inverter; a first core including a through hole that allows passage of a positive side conductor that connects the direct-current power supply system and the inverter and a negative side conductor that connects the inverter to a second ground; a first ground conductor that connects the negative side conductor on a side of the direct-current power supply system with respect to the first core and the cooler; and a second ground conductor that connects the negative side conductor on the side of the direct-current power supply system with respect to the first core and the motor via a capacitive element, characterized in that the cooler is grounded to the second ground via the first ground conductor, the casing is grounded to a third ground, and the cooler is also connected to the casing. an inverter that is arranged in a casing and is adapted to receive power from a direct-current power supply system, and drive a motor that is connected to a first ground; a cooler that is adapted to cool down the inverter; a first core including a through hole that allows passage of a positive side conductor that connects the direct-current power supply system and the inverter and a negative side conductor that connects the inverter to a second ground; a first ground conductor that connects the negative side conductor on a side of the direct-current power supply system with respect to the first core and the cooler; and a second ground conductor that connects the negative side conductor on the side of the direct-current power supply system with respect to the first core and the motor via a capacitive element, characterized in that the cooler is grounded to the second ground via the first ground conductor, the casing is grounded to a third ground, and the cooler is also connected to the casing.
An imaging light guide for conveying a virtual image, comprising: a waveguide having opposing first and second surfaces; an in-coupling diffractive optic arranged along the first surface or the second surface to direct image-bearing light beams into the waveguide; and a reflector array (32, 42) of two or more at least partially reflective surfaces (34a, 34b, 34c, 34d, 44a, 44b) oriented in parallel and disposed to expand the image-bearing light beams from the in-coupling diffractive optic in a first dimension and to direct the expanded image-bearing light beams toward an out-coupling diffractive optic; wherein the out-coupling diffractive optic is arranged along the first surface or the second surface to expand the image-bearing light beams from the reflector array in a second dimension orthogonal to the first dimension and to direct the image-bearing light beams from the waveguide toward an eyebox. a waveguide having opposing first and second surfaces; an in-coupling diffractive optic arranged along the first surface or the second surface to direct image-bearing light beams into the waveguide; and a reflector array (32, 42) of two or more at least partially reflective surfaces (34a, 34b, 34c, 34d, 44a, 44b) oriented in parallel and disposed to expand the image-bearing light beams from the in-coupling diffractive optic in a first dimension and to direct the expanded image-bearing light beams toward an out-coupling diffractive optic; wherein the out-coupling diffractive optic is arranged along the first surface or the second surface to expand the image-bearing light beams from the reflector array in a second dimension orthogonal to the first dimension and to direct the image-bearing light beams from the waveguide toward an eyebox.
LED module comprising an LED chip having a plurality of directly overlying epitaxial gallium nitride layers and a silicon platform on which the LED chip is arranged, wherein the gallium nitride layers comprise at least one n-doped layer, an active layer and a p-doped layer, wherein the silicon platform comprises two electrodes (4a, 4b) on one of the sides facing away from the LED chip, and which are in electrical communication with the LED chip, and wherein the total thickness of the epitaxial gallium nitride layers of the LED chip is 1-10 μm, preferably 2-5 μm, wherein the silicon platform has a cavity in which the LED chip is arranged, and wherein the epitaxial gallium nitride layers are arranged directly on a surface of the silicon platform, and wherein the LED chip has no further substrate layers in addition to the epitaxial gallium nitride layers.
Apparatus of the tobacco processing industry comprising a device for applying glue onto at least one wrapping material web (11a, 11b), which device includes at least one glue nozzle (15a, 15b) for applying glue onto the wrapping material web (11a, 11b), wherein the device comprises a controlled adjusting device for the controlled adjustment of the glue nozzle (15a, 15b) in a side direction of the wrapping material web (11a, 11b) oriented perpendicular to a conveying direction of the wrapping material web (11a, 11b) and parallel to a wrapping material web plane, and comprising a control device for controlling the adjusting device, characterized in that a lateral adjustment of the wrapping material web (11a, 11b) using an adjustment unit is provided and the control device controls the adjusting device depending on the lateral adjustment of the wrapping material web (11a, 11b).
A self-supporting structure formed by assembling at least two composite material sandwich structure panels, said two panels respectively having two assembly portions with complementary profile elements (31, 32) that each have at least one means for clamping the panels that is located along the complementary profile elements, said clamping means (35, 36) being capable of occupying an active state for a maximum clamping of the two panels, the assembly portions being profiled such that when the clamping means occupy the active state, the two interlocked panels have a three-dimensional shape corresponding to that of said two panels in the structure to be created, and form a self-supporting substructure.
An insulated metal substrate, the IMS comprising: a metal substrate having a first side and a second side; and a first dielectric layer on the first side of the substrate, wherein the dielectric layer comprises Al x O y N z, wherein, y is from 0.1 at% to 49.9 at%, z is from 0.1 at% to 49.9 at%, further doped with H, wherein the dielectric layer comprises AlON, and the AlON comprises a random structure. a metal substrate having a first side and a second side; and a first dielectric layer on the first side of the substrate, wherein the dielectric layer comprises Al x O y N z, wherein, y is from 0.1 at% to 49.9 at%, z is from 0.1 at% to 49.9 at%, further doped with H, wherein the dielectric layer comprises AlON, and the AlON comprises a random structure.
A process for the production of lipids from biomass including at least one polysaccharide comprising: - subjecting said biomass to acid hydrolysis in the presence of an aqueous solution of at least one organic acid selected from alkyl- or aryl-sulfonic acids having from C 7 to C 20 carbon atoms, at a temperature ranging from 80°C to 160°C, obtaining a first mixture comprising a first solid phase and a first aqueous phase; - subjecting said first mixture to enzymatic hydrolysis obtaining a second mixture comprising a second solid phase and a second aqueous phase; - subjecting said second aqueous phase to fermentation in the presence of at least one oleaginous yeast obtaining an oleaginous cellular biomass comprising lipids. - subjecting said biomass to acid hydrolysis in the presence of an aqueous solution of at least one organic acid selected from alkyl- or aryl-sulfonic acids having from C 7 to C 20 carbon atoms, at a temperature ranging from 80°C to 160°C, obtaining a first mixture comprising a first solid phase and a first aqueous phase; - subjecting said first mixture to enzymatic hydrolysis obtaining a second mixture comprising a second solid phase and a second aqueous phase; - subjecting said second aqueous phase to fermentation in the presence of at least one oleaginous yeast obtaining an oleaginous cellular biomass comprising lipids.
Monolithic blade stabiliser tool for a drilling string, comprising a cylindrical body part of radius r and length L defining a longitudinal axis X and comprising a plurality of stabiliser blades (1 "), wherein said stabiliser blades (1 ") and said cylindrical body part are machined as an integral component defining in this way a monolithic blade stabiliser tool, said stabiliser blades (1 ") extending radially outwardly from the surface of said cylindrical body part, and defining with their most outwardly extended surface an ideal cylinder coaxial with said cylindrical body part and having a radius R > r; each of said stabiliser blades (1 ") having an elongated shape extending parallel to said longitudinal axis X and having a length l< L; each of said stabiliser blades (1 ") comprising a front section, a back section and a central section, an upper surface having the shape of a dome defining the contact area, and vertical side walls, wherein said back section tapers from said central section towards a substantially semi-circular back end and the front section has substantially the shape of a semicircle, and wherein said upper surface of the stabiliser blades (1 ") slopes downwards near and towards the end of the front section and also near and towards the end of the back section till it meets the surface of said cylindrical body part, where said monolithic blade stabiliser tool comprises a first group of three or more stabiliser blades having their centers arranged and equally distributed on a first circle on said cylindrical surface and a second group of three or more stabiliser blades having their centers arranged and equally distributed on a second circle, which second circle is spaced apart from the first circle, and where the back sections of the two groups of stabiliser blades (1 ") are arranged in between each other in such a way that oblique channels are formed between the back sections of each neighboring pair of stabiliser blades (1 "), defining the flow-by-area between the blades (1 "), wherein the flow-by-area is constant within 10% of its mean value.
A method for annealing at least a portion of at least one metallic component of a nuclear fission fuel assembly of a nuclear fission reactor, the method comprising: determining an annealing temperature range for at least a portion of at least one metallic component of a nuclear fission fuel assembly of a nuclear fission reactor; and annealing at least the portion of the at least one metallic component of the nuclear fission fuel assembly within the annealing temperature range, wherein annealing is performed within a reactor core of the nuclear fission reactor in-place, characterized in that annealing at least the portion of the at least one metallic component of the nuclear fission fuel assembly within the annealing temperature range includes adjusting operational parameters of the nuclear fission reactor to establish operating conditions of a region of the nuclear fission reactor containing the at least one metallic component within the determined annealing temperature range for a period of time selected to produce annealing of at least the portion of the at least one metallic component, wherein adjusting operational parameters includes raising temperature of the region of the nuclear fission reactor containing the at least one metallic component from a predetermined operating temperature range of the reactor core toward the annealing temperature range. determining an annealing temperature range for at least a portion of at least one metallic component of a nuclear fission fuel assembly of a nuclear fission reactor; and annealing at least the portion of the at least one metallic component of the nuclear fission fuel assembly within the annealing temperature range, wherein annealing is performed within a reactor core of the nuclear fission reactor in-place, characterized in that annealing at least the portion of the at least one metallic component of the nuclear fission fuel assembly within the annealing temperature range includes adjusting operational parameters of the nuclear fission reactor to establish operating conditions of a region of the nuclear fission reactor containing the at least one metallic component within the determined annealing temperature range for a period of time selected to produce annealing of at least the portion of the at least one metallic component, wherein adjusting operational parameters includes raising temperature of the region of the nuclear fission reactor containing the at least one metallic component from a predetermined operating temperature range of the reactor core toward the annealing temperature range.
Method of fingerprint recognition comprising the steps consisting of: - activating an image distortion software on a computer; - displaying a fingerprint image on a screen of the computer in a presentation environment of said image distortion software program; - distorting the fingerprint image so as to correct a fault detected on said fingerprint image, anchoring points being disposed in a neighborhood of the fault such as it is detected and at least one anchoring point being moved so as to correct the detected fault, and wherein the anchoring points disposed in a neighborhood of the fault such as it is detected, other than the at least one anchoring point being moved, remain fixed, the fingerprint image comprising fingerprint lines outside the neighborhood of the detected fault, the fingerprint lines defining characteristic points of the image, said characteristic points being preserved so as to allow analysis thereof. - activating an image distortion software on a computer; - displaying a fingerprint image on a screen of the computer in a presentation environment of said image distortion software program; - distorting the fingerprint image so as to correct a fault detected on said fingerprint image, anchoring points being disposed in a neighborhood of the fault such as it is detected and at least one anchoring point being moved so as to correct the detected fault, and wherein the anchoring points disposed in a neighborhood of the fault such as it is detected, other than the at least one anchoring point being moved, remain fixed, the fingerprint image comprising fingerprint lines outside the neighborhood of the detected fault, the fingerprint lines defining characteristic points of the image, said characteristic points being preserved so as to allow analysis thereof.
Supporting construction for a heating device or cooling device consisting of a profile, a pipe for a heating medium or cooling medium and a heat-radiating or cool-radiating cover plate or cover layer, wherein the profile is able to accommodate the pipe fixingly and can be fastened on a building construction such as e.g. on a present ceiling construction or wall construction of a structure, wherein the profile has at least one fastening means for fastening on the building construction, as well as at least one contact portion for the cover plate or cover layer, wherein the contact portion is provided as a support for the fastening and contacting of the radiating cover plate or cover layer and the profile has a holding portion, corresponding to the shape of the pipe, for the medium-guiding pipe, which holding portion has a receiving opening, pointing away from the building construction in the installed condition, for the pipe and the holding portion for the pipe is formed as a groove which is adapted to the diameter of the pipe, so that the pipe abuts in full contact in this groove, wherein fixing means or connecting means are disposed and formed in the groove such that they hold the pipe in installed condition on the base of the groove, characterised in that on or in holding portion is disposed at least the fastening means for the fastening of the profile to the building construction.
A method for attaching a plastic barrel intended to guide an output shaft of a mechanical device to a housing of said mechanical device, said housing comprising a chimney delimited by an upper edge and a base, said chimney being arranged to partially surround the output shaft, the plastic barrel comprising a lateral protuberance, the method comprising at least the following steps: - inserting a first end of the plastic barrel into the chimney of the housing until the lateral protuberance axially abuts against the upper edge of the chimney, characterized in that - at least partially deforming the first end of the plastic barrel in order to form an axial counter-abutment. - inserting a first end of the plastic barrel into the chimney of the housing until the lateral protuberance axially abuts against the upper edge of the chimney, characterized in that - at least partially deforming the first end of the plastic barrel in order to form an axial counter-abutment.